MEET THE

DESTINY UV-C

PURE AIR CONTROL SYSTEM

MEET THE

DESTINY UV-C

PURE AIR CONTROL SYSTEM

The world’s first ventilation duct sterilization system using UVC and patented Control PLC Interface.

 

1

It’s technology is the world’s first ventilation duct sterilization system using UVC and patented Control PLC Interface that can interface with any Building Automation System on the Market.

2

The System is intended for both new installs and retrofit applications in the building environmental system. Featuring an interface that world with every Building Automation System on the Market.

3

A cost-effective method of protecting customers, staff, and employees from airborne viruses and organic pollutants.

  • It’s technology is the world’s first ventilation duct sterilization system using UVC and patented Control PLC Interface that can interface with any Building Automation System on the Market.
  • The System is revolutionary in the sense that it validates all the control points and monitors the functionality of the UV-C light as it targets and sterilizes the air stream.
  • All the other sensors are used in many different ways such as the reduction of outside air to save energy and heating/cooling in the system.
    • Less need for outside air, saving money on energy and filters.
    • The sterilization rate is 99.9%, with no chemical residues, and no waste generation.
    • Plug and play, easy to use and efficient, save time.
    • Low operating cost and low maintenance.
    • Comes with ETL certification.
    • Fireproof material, no secondary risk.
    • Built-in kill switch, easy to test and use.
    • Features a 2-year warranty.
  • We provide ODM & OEM services to meet your customized requirements.
  • Kills COVID, Ebola, and many other airborne diseases.

On average, UV-C slashes 10% to 25% of HVAC energy use

The PLC (Programmable Logic Controller) connects with a series of sensors mounted inside the HVAC unit plenum such as

 

CO2

UV-C

Temperature

Humidity

Airflow

YOU ARE DESTINED TO BREATHE CLEAN AIR, TRY DESTINY PURE AIR SYSTEM

DESTINY PURE AIR SYSTEM IS PERFECT FOR:

Hotels & Resorts

Offices & Factories

Schools & Colleges

Hospitals & Clinics

Malls & Groceries

Salons & Spas

Bars & Restaurants

Gyms & Yoga Studios

UV-C systems provide three levels of benefits when applied to HVAC systems.

LEVEL 1

HVAC System Efficiency


UV-C eliminates and/or prevents the buildup of organic material on the surfaces of cooling coils, drain pans, and interior duct surfaces. This improves airflow, returns and maintains the heat-transfer levels of cooling coils to “as-built” capacity, and reduces maintenance.

LEVEL 2

IQA

UV-C improves airflow levels and eliminates organic material on surfaces, which helps improve indoor air quality (IAQ) by reducing pathogens and odors. This improves occupant productivity, boosts comfort levels, and reduces sick time.

 

LEVEL 3

Economic Impact

The impact that UV-C has on mechanical systems and occupants translates into substantial economic benefits, including reductions in energy consumption, energy cost, and carbon footprint; reductions in hot/cold complaints and maintenance actions associated with complaints; reductions in system downtime and staff time needed for chemical or mechanical cleaning; and increases in occupant satisfaction and productivity. On average, UV-C slashes 10% to 25% of HVAC energy use.

The easy & effective way to purify your building’s air.

How It Works

The Destiny Pure bulbs produce a UV-C light that sterilizes the passing air with a disinfecting light. The UV-C bulbs break down organic matter killing bacteria, mold, and airborne diseases like COVID. Enclosed safely in your air handling system the light turns on as the air passes. Our unique cortisol system is designed to work with all HVAC systems and make it easy to add to any existing system.

Destiny Pure system will filter effectively and will kill any of the harmful particles in the air. With your recycled air now clean, it will lower your need to bring in fresh air. Less need for outside air will reduce your energy cost, the frequency of needing to replace costly filters, and even the need for large ductwork for high-volume fresh air exchange.

The ultraviolet light sterilizes the airflow to eliminate bacteria and viruses. Special reflectors increase the UV intensity and improve the efficiency of disinfection. The disinfected air circulates back to space. The UV light source of the air sterilizer is in a light-enclosed space, therefore, there are no threats to people and pets; just clean, safe air.

Benefits of Our UV-C System

  • Prevent airborne transmission by disinfecting the air.
  • Improve Indoor Air Quality (IAQ).
  • Help with maintenance of the unit including Cooling Coils.
  • Safe and very effective.
  • Simple installation, for new and existing systems.
  • Cost savings via reduced energy use & maintenance.
  • Each bulb comes in its own case for ease of use and safety.

There is an automatic reminder when the filter and UVC tubes need to be replaced, which is easy to replace.

The air sterilizer is suitable for hospitals, hotels and resorts, schools, offices, stores, supermarkets, and public areas.

The Destiny UV-C Pure Air Control System makes life safer and healthier for customers and employees.

UV-C Lifecycle

To receive these benefits, engineers need to apply simple methods of sizing, selection, and specifying a UV-C system during installation design. Contractors must correctly install the UV-C system, and facility staff must change the lamps annually and possibly perform other routine services. These activities can be grouped into the lifecycle phases of system design, installation, activation/commissioning, and operations and maintenance.

This article covers the lifecycle phase of system design, which includes sizing/selection of lamps, specifying the installation configuration and equipment, and selecting and specifying the controls.

Benefits of Our UV-C System

For a complete design solution, engineers need to determine:

  • How much UV-C energy is needed to “do the job.”
  • The lamp/ballast characteristics required to meet the individual application’s operating conditions.
  • The required quantity and configuration of lamps needed.

In its 2011 ASHRAE Handbook, Applications, Chapter 60.8, ASHRAE Technical Committee, TC2.9, established minimum irradiation levels of 50-100 µW/cm2 (microwatts per square centimeter) for cooling coil applications. This requirement must be met as a “minimum” across the entire coil surface, including plenum ends and corners.

These engineering units, however, are unfamiliar to most practitioners. In lighting applications, sizing will generally resolve to lamp Watts. One accurate way to convert microwatts to lamp Watts is to use a form-factor translation consisting of a 1 sq meter surface with a 1-meter-long lamp located midway up the surface on a horizontal plane. The average lamp Watts and output of lamp manufacturers’ published data show that a 1 meter, high-output (HO) lamp is rated at 80 lamp Watts with an output of 245 µW/cm2, at 1-meter distance (i.e., lamp surface to coil surface). UV-C lamps are usually installed at 12 in. from the coil surface, so the irradiance needs to be interpolated for that distance. Using the industry-accepted “cylindrical view factor model,” the resulting irradiance is 1375 µW/cm2.

While this number seems to be more than enough to meet the 100 µW/cm2 recommended by ASHRAE, all operating conditions must first be taken into account. Some conditions effectively lessen or “de-rate” the performance of the lamps, such as air temperature and velocity. In fact, changes in these variables can positively affect design performance. In typical conditions of 500 fpm velocity and 55 F air temperature, lamps are de-rated by about 50%. Hence, the 1375 µW/cm2 generated from a conventional high-output 80 lamp Watt bulb would now yield a dose irradiance of closer to 688 µW/cm2—at 12 in. from the coil surface (Figure 1).

The next consideration factor is the distance of the UV-C lamp to the plenum corners. The Kowalski view factor on the 1-meter example (Figure 1) shows this to be 25% of the highest mean value. Following through our earlier example, 688 µW/cm2 is multiplied by 0.25, which results in 172 µW/cm2 at the farthest points, or corners of the plenum.

The good news? UV-C dosage is increased based on reflectivity from the plenum’s surface, or the amount of UV-C energy bouncing off of the top, bottom, and sides of a plenum toward the coil and elsewhere. Reflectivity sends UV energy everywhere to assure “all” surfaces are clean and disinfected. Different materials have different reflectance multipliers, as shown in Table 1. Using a galvanized steel plenum as an example, the multiplier is 1.50 (a 50% increase in UV-C energy); hence 172 µW/cm2 x 1.50 = 258 µW/cm2.

Even without considering reflectivity, the ASHRAE minimum UV-C dosage levels would be achieved at the farthest distance from the lamp to the coil. So, should less light be used? Because more light positively affects airborne microbial kill levels and because there is no significant cost savings for trying to use fewer or less-intense UV-C lamps, the 80-Watt HO lamps are highly recommended.

By working through the 1-meter example, the results can be used for future UV-C lamp installations as follows. The lamp was a 1-meter-long, 80-Watt HO lamp, irradiating a 1-sq-meter surface, or 10.76 sq. ft. If the lamp wattage is divided by the square footage of the surface, it becomes (80/10.76) = 7.43 Watts/sq ft of coil surface area. This simpler method exceeds ASHRAE’s recommendations of 100 µW/cm2 at the farthest point, under typical operating conditions when the lamp is located 12 in. from the coil surface!

After determining how much light is needed, engineers need to select the types of lamps that will provide the necessary light energy. Among the considerations are single-ended (Figure 2) and double-ended lamps (Figure 3). Double-ended lamps are used in specific length configurations and may confine the design in certain air handling units (AHUs). Single-ended lamps provide a lot of flexibility relative to a given plenum’s width because they can be overlapped (Figure 4). Single-ended lamp fixtures can also be used in hard-to-access plenums and smaller rooftop units, as they are installed and serviced from outside the plenum (Figure 5).

Another consideration is whether to use PTFE encapsulation for safety. Encapsulated lamps trap the glass and mercury within a protective envelope should the lamp be broken. In most all applications there is a risk of lamp breakage. Encapsulation is recommended because the cleanup procedures for broken lamps can be extensive. Otherwise, guidelines for handling broken lamps can also be found in the 2011 ASHRAE Handbook – Applications, Chapter 60.

When using single-ended lamps, lamps of a single length can often be selected for the entire facility. This minimizes the number of spare lamps that must be kept on-site, and it increases the purchasing power for buying in bulk when re-lamping on an annual schedule. As mentioned, this approach simply overlaps lamps and eliminates having to have combinations of sizes to get a perfect fit from one end of the coil bank to the other.